Browse the latest research summaries in the field of neuroplasticity for spinal cord injury patients and caregivers.
Showing 131-140 of 159 results
Neural Regeneration Research, 2018 • August 1, 2018
The brain's ability to adapt and change, known as neuroplasticity, is crucial for maintaining its biological renaissance. Adult neurogenesis, the generation of new neurons in the adult brain, is a key...
KEY FINDING: Adult neurogenesis occurs not only in the hippocampus and SVZ but also in other brain regions like the cortex, amygdala, hypothalamus, and striatum, which are associated with the limbic system and basal ganglia.
Neurorehabil Neural Repair, 2016 • June 1, 2016
The study examined the interactive effects of active exercise, passive exercise, and serotonergic pharmacotherapy on cortical reorganization in rats with spinal cord injuries. The researchers found th...
KEY FINDING: Passive exercise (bike) and serotonergic pharmacotherapy (quipazine) are ‘competing’ therapies, as quipazine limits the cortical reorganization induced by bike.
PLoS ONE, 2015 • July 15, 2015
This longitudinal study investigates the evolution of motor-related brain activity in subacute SCI patients using EEG, focusing on event-related desynchronization (ERD) during motor attempts and image...
KEY FINDING: α and β ERD evolution after SCI is negatively correlated with the clinical progression of the patients during the first months after the injury.
PLoS ONE, 2012 • January 24, 2012
This study investigates the remodeling of the corticospinal tract (CST) after spinal cord injury (SCI) by tracing and analyzing individual CST collaterals over time. The research identifies three dist...
KEY FINDING: CST collateral formation begins within the first 10 days after spinal cord injury, and these collaterals can persist for at least 24 weeks.
Exp Neurol, 2021 • December 1, 2021
This review emphasizes the importance of considering all supraspinal cell types in spinal cord injury (SCI) research, not just a few major pathways. The authors discuss how new technologies make it fe...
KEY FINDING: Most SCI research focuses on corticospinal, rubrospinal, and raphespinal pathways, neglecting many other important supraspinal populations.
PLoS ONE, 2014 • October 28, 2014
This study evaluated the effects of a combination therapy consisting of ChABC, growth factors, and treadmill training on neuroanatomical plasticity and locomotor recovery in rats with compressive SCI....
KEY FINDING: The combined therapy significantly enhanced the neuroanatomical plasticity of major descending spinal tracts such as corticospinal and serotonergic-spinal pathways.
Scientific Reports, 2021 • April 22, 2021
This study investigates the role of Rac1 in spasticity following spinal cord injury (SCI) by conditionally knocking out Rac1 in motor neurons of mice. The researchers found that Rac1 knockout led to a...
KEY FINDING: Viral-mediated Rac1 knockdown in motor neurons after SCI significantly restored rate-dependent depression (RDD) of the H-reflex, indicating reduced hyperreflexia.
JOURNAL OF NEUROTRAUMA, 2009 • December 1, 2009
This study examines the effect of ChABC on promoting axonal sprouting rostral or caudal to spinal cord injuries and its impact on functional recovery. The study found that ChABC promotes sprouting of ...
KEY FINDING: ChABC injection rostral to a hemisection injury promoted significant sprouting of 5HT+ fibers into the dorsal and ventral horns of the spinal cord.
The Journal of Neuroscience, 2019 • June 12, 2019
This study investigates the molecular changes in the spinal cord after cortical stroke in mice, focusing on factors that influence the reinnervation process by contralesional corticospinal neurons. Th...
KEY FINDING: The spinal transcriptome after cortical stroke is characterized by two phases: an early inflammatory phase and a late tissue repair phase with upregulated genes related to neurite outgrowth.
JOURNAL OF NEUROTRAUMA, 2011 • December 1, 2011
This study investigates the role of spared descending pathways in locomotor recovery after body-weight-supported treadmill training (BWSTT) in contused rats. The researchers evaluated locomotor recove...
KEY FINDING: BWSTT accelerates locomotor recovery in contused rats, improves H-reflex properties, reduces muscle atrophy, and decreases sprouting of small caliber afferent fibers. BWSTT-contused animals showed accelerated locomotor recovery, improved H-reflex properties, reduced muscle atrophy, and decreased sprouting of small caliber afferent fibers.